Hybrid Systems: Computation and Control: 5th International Workshop, HSCC 2002 Stanford, CA, USA, March 25–27, 2002 Proceedings

Introduction to "Hybrid Systems: Computation and Control"

The book "Hybrid Systems: Computation and Control," edited by Claire J. Tomlin and Mark R. Greenstreet, is the proceedings of the 5th International Workshop held in Stanford, California from March 25–27, 2002. This text provides an interdisciplinary overview of hybrid systems, which combine discrete-event and continuous-time dynamics to address challenges in complex system modeling, analysis, and control. Professionals, researchers, and academics involved in computer science, control engineering, and applied mathematics will find this work invaluable.

Over recent decades, hybrid systems have become a cornerstone of designing and controlling embedded and cyber-physical systems that interact with the human environment. The subjects addressed by the contributors to this volume establish a strong foundation in theory while also exploring innovative applications in areas like robotics, automotive systems, and avionics. With rapid technological advancements, this domain continues to evolve, and the explorations presented in this book remain highly relevant and impactful even years after its original publication.

Detailed Summary of the Book

The workshop proceedings collected in this book showcase pioneering research and developments in the field of hybrid systems. A hybrid system is characterized by its integration of discrete computational processes and continuous physical systems. Under practical constraints and uncertainties, the hybrid framework is essential for maintaining stability, efficiency, and safety in real-world applications.

The topics covered in the book include modeling approaches, new analysis techniques, computer-aided verification methods, synthesis of controllers, and optimization strategies. Papers presented demonstrate significant progress in hybrid systems' ability to address challenges in automatic control, decision-making, and task scheduling. The discussions explore cutting-edge techniques such as reachability, abstraction methods, and structural decomposition, advancing the field's theory while maintaining a strong application focus.

With contributions from some of the most respected researchers in this area, the book presents not only theoretical frameworks but also practical challenges and applications in domains as varied as aerospace, consumer electronics, and process control. Readers will gain a deep understanding of hybrid system structures, as well as insights into emerging approaches that push the boundaries of system reliability and performance.

Key Takeaways

• Comprehensive coverage of hybrid system modeling, incorporating discrete and continuous dynamics.
• Innovative control and verification strategies suitable for real-world, safety-critical systems.
• New computational tools and frameworks aiding hybrid system analysis and synthesis.
• Exploration of practical examples, ranging from robotics to avionics and environmental systems.
• Interdisciplinary approaches fusing computer science, mathematics, and engineering.

Famous Quotes from the Book

"Hybrid systems provide the structural flexibility that modern control systems demand, while enabling rigorous mathematical reasoning for safety and performance guarantees."

"The integration of computation with dynamics is no longer merely an academic pursuit—it is a necessity in ensuring the viability of future technologies."

Why This Book Matters

"Hybrid Systems: Computation and Control" encapsulates a transformative period in the development of hybrid system theory and applications. At the dawn of the 21st century, researchers and practitioners were tasked with creating systems capable of navigating unpredictable environments and satisfying stringent safety requirements. This book not only chronicled the technical strides achieved by 2002 but also established a roadmap for future advancements in hybrid systems.

The importance of this book lies in its ability to bridge academic innovation with real-world application. By addressing both the theoretical and practical aspects of hybrid systems, it serves as an essential resource for developing future-proof technologies. Its relevance persists in today's rapidly evolving technological landscape, where smart and autonomous systems increasingly dominate.

Researchers, students, and professionals will find this text an invaluable reference—not just for understanding cutting-edge developments in hybrid systems from 2002 but also for inspiring their present-day work in the field.